Comparison

Canonical path: NemAll_Python_Geometry.Comparison

Utility class with methods for comparing two with each other

AllPointsAreOneAxis `staticmethod`

AllPointsAreOneAxis(polyline: Polyline2D, tolerance: float) -> bool

Check if all points of polyline are on one straight line

Parameters:

polyline (Polyline2D) –

Polyline
tolerance (float) –

Tolerance

Returns:

bool –

Result of the check

Congruent `overloaded`

Congruent(l1p1: Point2D, l1p2: Point2D, l2p1: Point2D, l2p2: Point2D) -> bool

compare 2D points of two 2D lines if are congruent

Parameters:

l1p1 (Point2D) –

the 1. point of the 1. line
l1p2 (Point2D) –

the 2. point of the 1. line
l2p1 (Point2D) –

the 1. point of the 2. line
l2p2 (Point2D) –

the 2. point of the 2. line

Returns:

bool –

true if lines are congruent, otherwise false.

Congruent(l1: Line2D, l2: Line2D) -> bool

compare 2D lines if are congruent

Parameters:

l1 (Line2D) –

the 1. line
l2 (Line2D) –

the 2. line

Returns:

bool –

true if lines are congruent, otherwise false.

DeterminePosition `overloaded`

DeterminePosition(
    geoObject: object, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to an object.

Parameters:

geoObject (object) –

IGeometry
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    line: Line2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D line.

Parameters:

line (Line2D) –

2D line
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    axis: Axis2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D axis.

Parameters:

axis (Axis2D) –

2D axis
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement, eAbove, eBelow

DeterminePosition(
    polyline: Polyline2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D polyline. Returns position of point to the closest line of poly line

Parameters:

polyline (Polyline2D) –

2D polyline
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    arc: Arc2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D arc.

Parameters:

arc (Arc2D) –

2D arc
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    arc: Arc3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 3D arc.

Parameters:

arc (Arc3D) –

3D arc
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    clothoid: Clothoid2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D clothoid.

Parameters:

clothoid (Clothoid2D) –

2D clothoid
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    spline: Spline2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 2D spline.

Parameters:

spline (Spline2D) –

2D spline
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    polygon: Polygon2D, point: Point2D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a polygon 2D.

Parameters:

polygon (Polygon2D) –

Polygon2D
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eInside(inside the polygon), eOutside, eOnElement (on one of the edges), eEqualToEndPoint or Unknown

DeterminePosition(polygon: Polygon2D, line: Line2D) -> eComparisionResult

Determine the relative position of a line to a polygon 2D.

Parameters:

polygon (Polygon2D) –

Polygon2D
line (Line2D) –

Line

Returns:

eComparisionResult –

eInside(inside the polygon), eOutside, eNotParallel(the line crosses the polygon), eOnElement (on one of the edges), or Unknown

DeterminePosition(
    line: Line3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 3D line

Parameters:

line (Line3D) –

3D line
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(
    polyline: Polyline3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 3D polyline

Parameters:

polyline (Polyline3D) –

3D polyline
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow

DeterminePosition(phed: Polyhedron3D, point: Point3D) -> eComparisionResult

Determine the relative position of a point to a Polyhedron

Parameters:

phed (Polyhedron3D) –

Polyhedron
point (Point3D) –

Point

Returns:

eComparisionResult –

eInside,eOutside

DeterminePosition(
    spline: Spline3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a Spline3D

Parameters:

spline (Spline3D) –

Spline3D
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eOutside

DeterminePosition(
    spline: BSpline3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a BSpline3D

Parameters:

spline (BSpline3D) –

BSpline3D
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eOutside

DeterminePosition(
    path: Path3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a Path3D

Parameters:

path (Path3D) –

Path3D
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eOutside

DeterminePosition(
    b: BRep3D, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 3D BRep

Parameters:

b (BRep3D) –

BRep3D
point (Point3D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eOnElement(identical to a vertes of the BRep), eInside (inside the BRep)

DeterminePosition(
    polygon1: Polygon2D, polygon2: Polygon2D
) -> eComparisionResult

Determine the relative position of the second polygon to the first polygon

Parameters:

polygon1 (Polygon2D) –

the first polygon
polygon2 (Polygon2D) –

the second polygon

Returns:

eComparisionResult –

eInside,eOutside,eCrossing

DeterminePosition(line: Line2D, minMax: MinMax2D) -> eComparisionResult

Determine the relative position of minMax to line

Parameters:

line (Line2D) –

line
minMax (MinMax2D) –

minmax

Returns:

eComparisionResult –

eOutside,eCrossing,eUnknown

DeterminePosition(lines: Line2DList, minMax: MinMax2D) -> eComparisionResult

Determine the relative position of the minMax to lines

Parameters:

lines (Line2DList) –

lines
minMax (MinMax2D) –

minmax

Returns:

eComparisionResult –

eOutside,eCrossing,eUnknown

DeterminePosition(
    igeo: object, point: Point3D, tolerance: float
) -> eComparisionResult

Determine the relative position of a point to a 3D geometry

Parameters:

igeo (object) –

3D geometry
point (Point3D) –

Point3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

eComparisionResult –

eInside,eOutside

DeterminePositionEx `staticmethod`

DeterminePositionEx(
    polyline: Polyline2D, point: Point2D, tolerance: float
) -> tuple[eComparisionResult, VecSizeTList]

Determine the relative position of a point to a 2D polyline.

Parameters:

polyline (Polyline2D) –

2D polyline
point (Point2D) –

Point
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

tuple[eComparisionResult, VecSizeTList] –

tuple(eOnElement(between start and end points), eEqualToStartPoint, eEqualToEndPoint, eLeft, eRight, eAbove, eBelow, number of the segment of polyline in which was the point found (-1 - is not on polyline, 0 - first segm., ...))

Equal `overloaded`

Equal(el1: float, el2: float) -> bool

Compare two floating point numbers without tolerance

Parameters:

el1 (float) –

first number
el2 (float) –

second number

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Point2D, el2: Point2D) -> bool

Compare two 2D points without tolerance

Parameters:

el1 (Point2D) –

first point
el2 (Point2D) –

second point

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Point3D, el2: Point3D) -> bool

Compare two 3D points without tolerance

Parameters:

el1 (Point3D) –

first point
el2 (Point3D) –

second point

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Vector2D, el2: Vector2D) -> bool

Compare two 2D vectors without tolerance

Parameters:

el1 (Vector2D) –

first vector
el2 (Vector2D) –

second vector

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Vector3D, el2: Vector3D) -> bool

Compare two 3D vectors without tolerance

Parameters:

el1 (Vector3D) –

first vector
el2 (Vector3D) –

second vector

Returns:

bool –

true when equal, otherwise false.

Equal(el1: float, el2: float, tol: float) -> bool

Compare two floating point numbers with tolerance

Parameters:

el1 (float) –

first number
el2 (float) –

second number
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Point2D, el2: Point2D, tol: float) -> bool

Compare two 2D points with tolerance

Parameters:

el1 (Point2D) –

first point
el2 (Point2D) –

second point
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Point3D, el2: Point3D, tol: float) -> bool

Compare two 3D points with tolerance

Parameters:

el1 (Point3D) –

first point
el2 (Point3D) –

second point
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Vector2D, el2: Vector2D, tol: float) -> bool

Compare two 2D vectors with tolerance

Parameters:

el1 (Vector2D) –

first vector
el2 (Vector2D) –

second vector
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Vector3D, el2: Vector3D, tol: float) -> bool

Compare two 3D vectors with tolerance

Parameters:

el1 (Vector3D) –

first vector
el2 (Vector3D) –

second vector
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Line2D, el2: Line2D, tol: float) -> bool

Compare two 2D lines with tolerance

Parameters:

el1 (Line2D) –

first line
el2 (Line2D) –

second line
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Line3D, el2: Line3D, tol: float) -> bool

Compare two 3D lines with tolerance

Parameters:

el1 (Line3D) –

first line
el2 (Line3D) –

second line
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Spline2D, el2: Spline2D, tol: float) -> bool

Compare two 2D splines with tolerance

Parameters:

el1 (Spline2D) –

first spline
el2 (Spline2D) –

second spline
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Clothoid2D, el2: Clothoid2D, tol: float) -> bool

Compare two 2D clothoids with tolerance

Parameters:

el1 (Clothoid2D) –

first clothoid
el2 (Clothoid2D) –

second clothoid
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Arc2D, el2: Arc2D, tol: float) -> bool

Compare two 2D arcs with tolerance

Parameters:

el1 (Arc2D) –

first arc
el2 (Arc2D) –

second arc
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Arc3D, el2: Arc3D, tol: float) -> bool

Compare two 3D arcs with tolerance

Parameters:

el1 (Arc3D) –

first arc
el2 (Arc3D) –

second arc
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: BSpline3D, el2: BSpline3D, tol: float) -> bool

Compare two 3D base splines with tolerance

Parameters:

el1 (BSpline3D) –

first b-spline
el2 (BSpline3D) –

second b-spline
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Spline3D, el2: Spline3D, tol: float) -> bool

Compare two 3D splines with tolerance

Parameters:

el1 (Spline3D) –

first spline
el2 (Spline3D) –

second spline
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: Polyline3D, el2: Polyline3D, tol: float) -> bool

Compare two 3D polylines with tolerance

Parameters:

el1 (Polyline3D) –

first polyline
el2 (Polyline3D) –

second polyline
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(el1: BSpline2D, el2: BSpline2D, tol: float) -> bool

Compare two 2D base splines with tolerance

Parameters:

el1 (BSpline2D) –

first b-spline
el2 (BSpline2D) –

second b-spline
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(path1: Path3D, path2: Path3D, tol: float) -> bool

Compare two 3D paths with tolerance

Parameters:

path1 (Path3D) –

first path
path2 (Path3D) –

second path
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal, otherwise false.

Equal(igeo1: object, igeo2: object, tol: float) -> bool

Compare 2 geometries with given tolerance

Parameters:

igeo1_object –

first geometry
igeo2_object –

second geometry
tol (float) –

value used to calculate allowed delta

Returns:

bool –

true when equal

EqualCoordsRel `overloaded`

EqualCoordsRel(el1: Point2D, el2: Point2D) -> bool

compare 2 2D points using iqrkor

Parameters:

el1 (Point2D) –
1. element
el2 (Point2D) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualCoordsRel(el1: Point3D, el2: Point3D) -> bool

compare 2 3D points using iqrkor

Parameters:

el1 (Point3D) –
1. element
el2 (Point3D) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualDistance `overloaded`

EqualDistance(el1: Point2D, el2: Point2D, tol: float) -> bool

compare 2 2D points using their distance with given tolerance

Parameters:

el1 (Point2D) –
1. point
el2 (Point2D) –
1. point
tol (float) –

tolerance

Returns:

bool –

true when equal, otherwise false.

EqualDistance(el1: Point3D, el2: Point3D, tol: float) -> bool

compare 2 2D points using their distance with given tolerance

Parameters:

el1 (Point3D) –
1. point
el2 (Point3D) –
1. point
tol (float) –

tolerance

Returns:

bool –

true when equal, otherwise false.

EqualRel `overloaded`

EqualRel(el1: float, el2: float) -> bool

compare 2 doubles using built-in relative tolerance

Parameters:

el1 (float) –
1. element
el2 (float) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualRel(el1: float, el2: float, tol: float) -> bool

compare 2 doubles using given relative tolerance

Parameters:

el1 (float) –
1. element
el2 (float) –
1. element
tol (float) –

relative tolerance

Returns:

bool –

true when equal, otherwise false.

EqualRel(el1: Point2D, el2: Point2D) -> bool

compare 2 2D points using built-in relative tolerance

Parameters:

el1 (Point2D) –
1. element
el2 (Point2D) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualRel(el1: Point3D, el2: Point3D) -> bool

compare 2 3D points using built-in relative tolerance

Parameters:

el1 (Point3D) –
1. element
el2 (Point3D) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualRel(el1: Vector2D, el2: Vector2D) -> bool

compare 2 2D vectors using built-in relative tolerance

Parameters:

el1 (Vector2D) –
1. element
el2 (Vector2D) –
1. element

Returns:

bool –

true when equal, otherwise false.

EqualRel(el1: Vector3D, el2: Vector3D) -> bool

compare 2 3D vectors using built-in relative tolerance

Parameters:

el1 (Vector3D) –
1. element
el2 (Vector3D) –
1. element

Returns:

bool –

true when equal, otherwise false.

GetSegmentNumber `overloaded`

GetSegmentNumber(geoObject: object, segment: Line2D, tolerance: float) -> int

Determine the segment position of a point to a 2D geometry object

Parameters:

geoObject (object) –

IGeometry
segment (Line2D) –

Line2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(geoObject: object, point: Point3D, tolerance: float) -> int

Determine the segment position of a point to a geometry object

Parameters:

geoObject (object) –

IGeometry
point (Point3D) –

Point3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(geoObject: object, point: Point2D, tolerance: float) -> int

Determine the segment position of a point to a 2D geometry object

Parameters:

geoObject (object) –

IGeometry
point (Point2D) –

Point2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(line: Line2D, point: Point2D, tolerance: float) -> int

Determine the segment position of a point to a Line2D

Parameters:

line (Line2D) –

Line2D
point (Point2D) –

Point2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(line: Line3D, point: Point3D, tolerance: float) -> int

Determine the segment position of a point to a Line3D

Parameters:

line (Line3D) –

Line3D
point (Point3D) –

Point3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(
    polyPoints: PolyPoints2D, point: Point2D, tolerance: float
) -> int

Determine the segment position of a point to a PolyPoints

Parameters:

polyPoints (PolyPoints2D) –

PolyPoints
point (Point2D) –

Point2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(polygon: Polygon2D, point: Point2D, tolerance: float) -> int

Determine the segment position of a point to a Polygon2D

Parameters:

polygon (Polygon2D) –

Polygon2D
point (Point2D) –

Point2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(
    polyPoints: PolyPoints3D, point: Point3D, tolerance: float
) -> int

Determine the segment position of a point to a PolyPoints

Parameters:

polyPoints (PolyPoints3D) –

PolyPoints
point (Point3D) –

Point3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(spline: Spline2D, point: Point2D, tolerance: float) -> int

Determine the segment position of a point to a Spline2d

Parameters:

spline (Spline2D) –

spline geo
point (Point2D) –

point on spline
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(line: Line2D, segment: Line2D, tolerance: float) -> int

Determine the segment position of a point to a Line2D

Parameters:

line (Line2D) –

Line2D
segment (Line2D) –

Line2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(line: Line3D, segment: Line3D, tolerance: float) -> int

Determine the segment position of a point to a Line3D

Parameters:

line (Line3D) –

Line3D
segment (Line3D) –

Line3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(
    polyPoints: PolyPoints2D, segment: Line2D, tolerance: float
) -> int

Determine the segment position of a point to a PolyPoints

Parameters:

polyPoints (PolyPoints2D) –

PolyPoints
segment (Line2D) –

Line2D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(
    polyPoints: PolyPoints3D, segment: Line3D, tolerance: float
) -> int

Determine the segment position of a point to a PolyPoints

Parameters:

polyPoints (PolyPoints3D) –

PolyPoints
segment (Line3D) –

Line3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

GetSegmentNumber(geoObject: object, segment: Line3D, tolerance: float) -> int

Determine the segment position of a point to a geometry object

Parameters:

geoObject (object) –

IGeometry
segment (Line3D) –

Line3D
tolerance (float) –

tolerance (if distance < tolerance, point on object)

Returns:

int –

segment number 0 is first element

HitsElement `staticmethod`

HitsElement(result: eComparisionResult) -> bool

Check if comparison result hits element in some way

Parameters:

result (eComparisionResult) –

the comparison result to check

Returns:

bool –

true, if the result indicates that the element is hit, otherwise false e.g. left, right, etc.

IsInside `overloaded`

IsInside(polygon: Polygon2D, line: Line2D) -> bool

Determine if the line is inside the polygon

Parameters:

polygon (Polygon2D) –

Polygon
line (Line2D) –

Line

Returns:

bool –

true, if the line is inside the polygon

IsInside(line: Line2D, lineToCheck: Line2D) -> bool

Args: line lineToCheck

IsParallel `overloaded`

IsParallel(el1: Line2D, el2: Line2D) -> tuple[eComparisionResult, float]

test 2 2D lines for parallel

Parameters:

el1 (Line2D) –
1. element
el2 (Line2D) –
1. element

Returns:

tuple[eComparisionResult, float] –

tuple(eParallel, eAntiParallel, eNotParallel, result distance)

IsParallel(lines: Line2DList) -> eComparisionResult

Check of parallelism for vector of 2D lines

Return eAntiParallel if at least one line is antiparallel and all rest are parallel Return eNotParallel if at least one line is not parallel In all rest cases return eParallel

Parameters:

lines (Line2DList) –
- vector of 2D lines

Returns:

eComparisionResult –

eParallel, eAntiParallel, eNotParallel

IsParallel(el1: Line3D, el2: Line3D) -> tuple[eComparisionResult, float]

test 2 3D lines for parallel

Parameters:

el1 (Line3D) –
1. element
el2 (Line3D) –
1. element

Returns:

tuple[eComparisionResult, float] –

tuple(eParallel, eAntiParallel, eNotParallel, result distance)

IsParallel(el1: object, el2: object) -> tuple[eComparisionResult, float]

test 2 Geometry object for parallel

Parameters:

el1 (object) –
1. element
el2 (object) –
1. element

Returns:

tuple[eComparisionResult, float] –

tuple(eParallel, eAntiParallel, eNotParallel, result distance)

Overlapped `overloaded`

Overlapped(el1: Polyline2D, el2: Polyline2D) -> bool

compare of 2 Polyline 2D

Parameters:

el1 (Polyline2D) –

Polyline2D
el2 (Polyline2D) –

Polyline2D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(
    el1: Polyline3D, el2: Polyline3D, partiallyToo: bool = False
) -> bool

compare of 2 Polyline 3D

Parameters:

el1 (Polyline3D) –

Polyline3D
el2 (Polyline3D) –

Polyline3D
partiallyToo (bool, default: False ) –

First and last segment of polyline have not be identical but is enough that lies on the second polyline segments

Returns:

bool –

true when overlapped, otherwise false

Overlapped(pp1: PolyPoints2D, pp2: PolyPoints2D) -> bool

compare of PolyPoints

Parameters:

pp1 (PolyPoints2D) –

PolyPoints
pp2 (PolyPoints2D) –

PolyPoints

Returns:

bool –

true when overlapped, otherwise false

Overlapped(pp1: PolyPoints3D, pp2: PolyPoints3D) -> bool

compare of PolyPoints

Parameters:

pp1 (PolyPoints3D) –

PolyPoints
pp2 (PolyPoints3D) –

PolyPoints

Returns:

bool –

true when overlapped, otherwise false

Overlapped(line1: Line2D, line2: Line2D) -> bool

compare of 2 2D lines

Parameters:

line1 (Line2D) –

Line2D
line2 (Line2D) –

Line2D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(line1: Line3D, line2: Line3D, partiallyToo: bool = False) -> bool

compare of 2 3D lines

Parameters:

line1 (Line3D) –

Line3D
line2 (Line3D) –

Line3D
partiallyToo (bool, default: False ) –

Lines have not be identical but is enough that one lies on the second

Returns:

bool –

true when overlapped, otherwise false

Overlapped(arc1: Arc2D, arc2: Arc2D) -> bool

compare of 2 2D arcs

Parameters:

arc1 (Arc2D) –

Arc2D
arc2 (Arc2D) –

Arc2D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(arc1: Arc3D, arc2: Arc3D) -> bool

compare of 2 3D arcs

Parameters:

arc1 (Arc3D) –

Arc3D
arc2 (Arc3D) –

Arc3D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(phed1: Polyhedron3D, phed2: Polyhedron3D) -> bool

compare of 2 3D Polyhedra

Parameters:

phed1 (Polyhedron3D) –

Polyhedron3D
phed2 (Polyhedron3D) –

Polyhedron3D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(el1: Spline2D, el2: Spline2D) -> bool

compare of 2 Spline 2D

Parameters:

el1 (Spline2D) –

Spline2D
el2 (Spline2D) –

Spline2D

Returns:

bool –

true when overlapped, otherwise false

Overlapped(geo1: object, geo2: object) -> bool

compare of 2 Geometries

Parameters:

geo1 (object) –

IGeometry
geo2 (object) –

IGeometry

Returns:

bool –

true when overlapped, otherwise false

signum `staticmethod`

signum(a: float, tol: float) -> float

sgn function

Parameters:

a (float) –

Number of which to compute sign
tol (float) –

tolerance

Returns:

float –

0, 1, -1

Placeholder

Comparison

AllPointsAreOneAxis staticmethod

Congruent overloaded

DeterminePosition overloaded

DeterminePositionEx staticmethod

Equal overloaded

EqualCoordsRel overloaded

EqualDistance overloaded

EqualRel overloaded

GetSegmentNumber overloaded

HitsElement staticmethod

IsInside overloaded

IsParallel overloaded

Overlapped overloaded

signum staticmethod

AllPointsAreOneAxis `staticmethod`

Congruent `overloaded`

DeterminePosition `overloaded`

DeterminePositionEx `staticmethod`

Equal `overloaded`

EqualCoordsRel `overloaded`

EqualDistance `overloaded`

EqualRel `overloaded`

GetSegmentNumber `overloaded`

HitsElement `staticmethod`

IsInside `overloaded`

IsParallel `overloaded`

Overlapped `overloaded`

signum `staticmethod`